Network analysis of systems elements.

EXS Pub Date : 2007-01-01 DOI:10.1007/978-3-7643-7439-6_14
Daniel Schöner, Simon Barkow, Stefan Bleuler, Anja Wille, Philip Zimmermann, Peter Bühlmann, Wilhelm Gruissem, Eckart Zitzler
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引用次数: 7

Abstract

A central goal of postgenomic research is to assign a function to every predicted gene. Because genes often cooperate in order to establish and regulate cellular events the examination of a gene has also included the search for at least a few interacting genes. This requires a strong hypothesis about possible interaction partners, which has often been derived from what was known about the gene or protein beforehand. Many times, though, this prior knowledge has either been completely lacking, biased towards favored concepts, or only partial due to the theoretically vast interaction space. With the advent of high-throughput technology and robotics in biological research, it has become possible to study gene function on a global scale, monitoring entire genomes and proteomes at once. These systematic approaches aim at considering all possible dependencies between genes or their products, thereby exploring the interaction space at a systems scale. This chapter provides an introduction to network analysis and illustrates the corresponding concepts on the basis of gene expression data. First, an overview of existing methods for the identification of co-regulated genes is given. Second, the issue of topology inference is discussed and as an example a specific inference method is presented. And lastly, the application of these techniques is demonstrated for the Arabidopsis thaliana isoprenoid pathway.

系统要素的网络分析。
后基因组研究的一个中心目标是为每一个被预测的基因分配一个功能。由于基因经常合作以建立和调节细胞事件,因此对基因的检查还包括寻找至少几个相互作用的基因。这需要对可能的相互作用伙伴有一个强有力的假设,而这个假设通常来自于事先对基因或蛋白质的了解。然而,很多时候,这种先验知识要么完全缺乏,要么偏向于喜欢的概念,要么由于理论上巨大的交互空间而只是部分地存在。随着生物研究中高通量技术和机器人技术的出现,在全球范围内研究基因功能,同时监测整个基因组和蛋白质组已经成为可能。这些系统方法旨在考虑基因或其产物之间所有可能的依赖关系,从而在系统尺度上探索相互作用空间。本章介绍了网络分析,并在基因表达数据的基础上阐述了网络分析的相关概念。首先,概述了现有的共调控基因鉴定方法。其次,讨论了拓扑推理问题,并给出了一种具体的推理方法。最后,介绍了这些技术在拟南芥类异戊二烯途径中的应用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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EXS
EXS
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